A. Sautkin
Moscow State University
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Featured researches published by A. Sautkin.
Marine Geology | 2003
L. M. Pinheiro; M. Ivanov; A. Sautkin; G.G. Akhmanov; Vitor Magalhaes; A. Volkonskaya; J. H. Monteiro; Luis Somoza; Joan Gardner; N Hamouni; Marina R. Cunha
A new deep water mud volcano field (between 2000 and 3500 m water depth) was discovered in the deep South Portuguese margin, as well as several new mud volcanoes in the South Spanish and Western Moroccan margins of the Gulf of Cadiz, during the TTR-10 (Training Through Research, UNESCO/IOC) cruise, in July/August 2000. This work followed the discovery of a large mud volcano field in the Gulf of Cadiz, first investigated during the TTR-9 cruise [Gardner (2001) Geophys. Res. Lett. 28, 339–342; Kenyon et al. (2000) IOC, Technical series no. 56]. The discoveries were made based on a SEAMAP side-scan sonar mosaic and multibeam bathymetry (SEABEAM) collected in the area by the Naval Research Laboratory (NRL), Washington, DC, USA, in 1992, kindly released for this purpose. Single-channel seismics, long-range side-scan sonar (OKEAN), TV-controlled grab, hull-mounted 3.5-kHz profiler and coring were used to investigate several seafloor features observed on the side-scan sonar imagery, in the South Iberia, Spanish and Moroccan margins of the Gulf of Cadiz, which were confirmed to be mud volcanoes. The typical structures related to fluid venting in the Gulf of Cadiz are essentially represented by conical mud volcanoes with diameters ranging from several tens of meters to 4 km and heights that can reach 200 m. Some of these structures appear to be aligned along major conjugate NE–SW and NW–SE trending faults that can be identified on the side-scan sonar imagery. The new field discovered in the South Portuguese margin is the deepest in the Gulf of Cadiz area and includes three new mud volcanoes – Bonjardim, Olenin and Carlos Ribeiro – which seem to be quite active, with near-surface gas hydrate occurrence and a high saturation in H2S and hydrocarbon gases (mainly methane) in the mud breccia and overlying pelagic sediments. Gas hydrates were recovered from the Bonjardim mud volcano. An intensely gassified mud breccia, with one fragment of semi-consolidated claystone with a thin bituminous veneer at the surface, was recovered from the Carlos Ribeiro mud volcano. The fauna recovered consists mainly of pogonophoran worms belonging to several species and undetermined species of Foraminifera. Three new mud volcanoes were also discovered in the NW Moroccan margin: Rabat, Student and Jesus Baraza. These show a richer fauna that includes several species of molluscs, polychaetes, pogonophoran worms, crustaceans, echinoderms and some fragments of dead coral (Madrepora and Lophelia). Carbonate crusts were recovered from the Student mud volcano. The Ginsburg mud volcano, discovered during the previous TTR-9 cruise, was revisited and gas hydrates recovered once again. A new mud volcano was also discovered in the Spanish margin, Tasyo, where evidence was found of coral build-ups on the hard substratum of the mud volcanic edifice.
Marine Geology | 2003
A. Sautkin; A.R. Talukder; M.C. Comas; J. I. Soto; A. Alekseev
During the BASACALB-TTR9 cruise of the R/V Professor Logachev (1999), two mud volcanoes (called Marrakech and Granada) were discovered in the southern sector of the mud diapir province in the West Alboran Basin (WAB). This paper presents micropaleontological and geophysical data on these mud volcanoes from gravity core samples, sidescan sonar (OKEAN) images and high-resolution seismic lines. Mud breccia recovered from the Granada mud volcano is matrix-supported with well-consolidated clasts of limestone, marlstone, claystone, siltstone, sandstone and mudstone, whereas mud breccia from the Marrakech mud volcano contains unconsolidated clasts. The mud breccia matrix contains abundant Miocene calcareous nannofossils (CN), together with Pliocene^Pleistocene species and reworked late Cretaceous and Paleocene^Eocene species. CN dating indicates that clasts in the mud breccia derive from late Cretaceous, Paleocene, Eocene, and probable Miocene sediments. These data suggest that the mud diapirs and mud volcanoes in the WAB can be derived from the olistostromes of Unit VI, the basal stratigraphic sequence in the Alboran Sea basin. Unit VIconsists of lower Miocene sediments that incorporated late Cretaceous and Paleocene^Eocene materials and basement-derived rock fragments. The mud volcanic deposits are covered by a thin drape of pelagic marls, suggesting that these two volcanoes are currently inactive. Structures determined on highresolution seismic profiles across mud volcanoes and surrounding diapirs correspond to the late-stage, Pliocene-toQuaternary diapir development. This stage is thought to have developed during a compressional tectonic setting that produced folding and wrench tectonics throughout the basin. Mud ascent at that time resulted in active diapirism and mud volcanoes on the seafloor. < 2002 Elsevier Science B.V. All rights reserved.
Cold water carbonate mounds and sediment transport on the Northeast Atlantic margin | 1998
Rudy Swennen; Bryan T. Cronin; M.K. Ivanov; E. Kozlova; Andrew J. Wheeler; A. Akhmetzhanov; A. Sautkin; David Van Rooij; Sébastien Zaragosi; L. Mazurenko; C. Degryse; P. Sumida; N. Satur; R. Kennedy; G.G. Akhmanov; I. Belenkaya; S. Pillen; Y. Naumov; A. Stadnitskaya; B De Mol; A. Balashova; A Saprynkina
Marine Geology | 2014
L. M. Pinheiro; M. Ivanov; A. Sautkin; G.G. Akhmanov; Vitor Magalhaes; A. Volkonskaya; J. H. Monteiro; Luis Somoza; Joan Gardner; N. Hamoumi; Marina R. Cunha
Cold water carbonate mounds and sediment transport on the Northeast Atlantic margin | 1998
Rudy Swennen; Bryan T. Cronin; M. Ivanov; E. Kozlova; Andrew J. Wheeler; A. Akhmetzhanov; A. Sautkin; D. Van Rooij; Sébastien Zaragosi; L. Mazurenko; C. Degryse; P. Sumida; N. Satur; R. Kennedy; G.G. Akhmanov; I.Y. Belen’kaya; S. Pillen; Y. Naumov; A. Stadnitskaya; B De Mol; A. Dalashova; A. Saprykina
Multidisciplinary Study of Geological Processes on the North East Atlantic and Western Mediterranean Margins | 2000
F. Teixeira; G.G. Akhmanov; A. Akhmetzhanov; A. Stadnitskaya; E. Kozlova; L. Mazurenko; A. Sautkin; D. Dixon; D. Ovsyannikov; A. Sadekov; N. Rasul; Y. Volkova; E. Suslova; D. Goncharov
Multidisciplinary Study of Geological Processes on the North East Atlantic and Western Mediterranean Margins | 2000
G.G. Akhmanov; A. Akhmetzhanov; A. Stadnitskaya; E. Kozlova; L. Mazurenko; F. Teixeira; A. Sautkin; D. Dixon; D. Ovsyannikov; A. Sadekov; N. Rasul; I. Belenkaya; Y. Volkova; E. Suslova; D. Goncharov
Multidisciplinary Study of Geological Processes on the North East Atlantic and Western Mediterranean Margins | 2000
Adriano Mazzini; A. Pedersen; A. Kuijpers; G.G. Akhmanov; A. Akhmetzhanov; A. Stadnitskaya; E. Kozlova; L. Mazurenko; A. Sautkin; D. Ovsyannikov; A. Sadekov; I. Belenkaya; Y. Volkova; E. Suslova; D. Goncharov
IOC Technical Series | 1999
G.G. Akhmanov; Adriano Mazzini; S Severmann; Ben De Mol; A Akhmetzanov; A. Stadnitskaya; A. Sautkin; I. Belenkaya; E. Kozlova; A Gili; R Brambilla; I Mardanyan; R Hale; M Kozachenko; Krupskaya; S Lubentsova; I Probert; A Cook; E Maginn
Neotectonics and fluid flow through seafloor sediments in the Eastern Mediterranean and Black Seas – Part II | 1997
M. Ivanov; A.M. Akhmetjanov; G.G. Akhmanov; A.V. Korkin; E. Kozlova; S.S. Gablina; A. Sautkin; S. Woodside; I.Y. Belen’kaya; A. Stadnitskaya